3Scan

Last updated
3Scan, Inc.
Company typePrivate
Industry Biotechnology
Founded2011 (2011)
Founders Todd Huffman, Megan Klimen, Matthew Goodman, Cody Daniel
FateAcquired
Headquarters,
United States
Services Automated tissue image analysis
Website www.3scan.com

3Scan, Inc. was an American biotechnology company based in San Francisco, California which was acquired in 2019, when 3Scan became a part of Strateos. [1] [2] It offered automated microscopy services using a coordinated combination of both hardware and software for the 3D analysis of cells, tissues, and organs. The company was founded in 2011 by Todd Huffman, Megan Klimen, Matthew Goodman, and Cody Daniel. The 3Scan technology is based on the Knife Edge Scanning Microscope developed in the late 1990s by Bruce McCormick, founder of the Brain Networks Lab at Texas A&M University. [3]

Contents

History

3Scan CEO Todd Huffman originally worked as a neuroinformatics researcher at Texas A&M in 2003 and first encountered the technology which became the core of 3Scan's microscopy services during this time. [4] While the KESM was originally developed as a neuroimaging tool, 3Scan has taken the principles involved in this technology and expanded its use to create a novel type of histology and tissue imaging. [3]

The company has raised a total of $22 million through two rounds of equity funding from Lux Capital and Data Collective, joined by Dolby Family Ventures, OS Fund, Comet Labs, and Breakout Ventures. [5] They have also raised $390,000 in non-dilutive grant money from institutions such as Breakout Labs and Start-Up Chile. [6] [7] The company employs about 35 full-time employees [8] and generates revenue by providing its imaging services to pharmaceutical companies, labs, or pathologists involved in pre-clinical drug discovery. As of 2017, 3Scan is collaborating with pharmaceutical development scientists, academic researchers, and tissue engineers as a contract research organization. It is not currently used for clinical diagnostics, but is in the process of building out a platform to perform clinical pathology and diagnostic services. [9]

In 2018, cofounder Cody Daniel was named on the Forbes 30 Under 30 list. [10]

Technology

3Scan’s technology changes the histology workflow to automate the process of tissue sectioning and imaging. Traditionally, histology slides are prepared by embedding a tissue sample in paraffin, taking some few slices of the tissue with a hand-driven microtome, mounting the tissue slices on slides, and staining with various histology stains. A pathologist then looks at these slides with a microscope. In the workflow developed by 3Scan, tissues are stained, embedded, and then sliced and imaged by the KESM. [11] By automating this process, it becomes feasible to take slices of and image the entirety of tissue instead of a few representative slides. In addition to taking more sections, 3Scan’s proprietary software is able to computationally realign these sections in order to visualize the 3D structure of the tissue, similar in appearance to a CT scan. It uses machine vision to produce a 3D spatial map that researchers can analyze on a screen, similar to a topographical map of the Earth. [12] [13] [14] Using these maps, scientists are also able to analyze parts of tissue and phenomena that were previously not visible, such as changes to blood flow between different tissue samples. [15] [16] [17]

This analysis is not possible using traditional manual histology techniques due to the excessive time involved and lost sections due to folding and warping. 3Scan’s KESM technology is able to perform approximately a year’s worth of tissue sample processing in a single day. [5]

Related Research Articles

<span class="mw-page-title-main">Histology</span> Study of the microscopic anatomy of cells and tissues of plants and animals

Histology, also known as microscopic anatomy or microanatomy, is the branch of biology that studies the microscopic anatomy of biological tissues. Histology is the microscopic counterpart to gross anatomy, which looks at larger structures visible without a microscope. Although one may divide microscopic anatomy into organology, the study of organs, histology, the study of tissues, and cytology, the study of cells, modern usage places all of these topics under the field of histology. In medicine, histopathology is the branch of histology that includes the microscopic identification and study of diseased tissue. In the field of paleontology, the term paleohistology refers to the histology of fossil organisms.

<span class="mw-page-title-main">Pathology</span> Study of disease

Pathology is the study of disease. The word pathology also refers to the study of disease in general, incorporating a wide range of biology research fields and medical practices. However, when used in the context of modern medical treatment, the term is often used in a narrower fashion to refer to processes and tests that fall within the contemporary medical field of "general pathology", an area that includes a number of distinct but inter-related medical specialties that diagnose disease, mostly through analysis of tissue and human cell samples. Idiomatically, "a pathology" may also refer to the predicted or actual progression of particular diseases. The suffix pathy is sometimes used to indicate a state of disease in cases of both physical ailment and psychological conditions. A physician practicing pathology is called a pathologist.

<span class="mw-page-title-main">Anatomical pathology</span> Medical specialty

Anatomical pathology (Commonwealth) or anatomic pathology (U.S.) is a medical specialty that is concerned with the diagnosis of disease based on the macroscopic, microscopic, biochemical, immunologic and molecular examination of organs and tissues. Over the 20th century, surgical pathology has evolved tremendously: from historical examination of whole bodies (autopsy) to a more modernized practice, centered on the diagnosis and prognosis of cancer to guide treatment decision-making in oncology. Its modern founder was the Italian scientist Giovanni Battista Morgagni from Forlì.

<span class="mw-page-title-main">Microscope slide</span> Thin, flat piece of glass onto which a sample is placed to be examined under a microscope

A microscope slide is a thin flat piece of glass, typically 75 by 26 mm and about 1 mm thick, used to hold objects for examination under a microscope. Typically the object is mounted (secured) on the slide, and then both are inserted together in the microscope for viewing. This arrangement allows several slide-mounted objects to be quickly inserted and removed from the microscope, labeled, transported, and stored in appropriate slide cases or folders etc.

<span class="mw-page-title-main">Histopathology</span> Microscopic examination of tissue in order to study and diagnose disease

Histopathology is the microscopic examination of tissue in order to study the manifestations of disease. Specifically, in clinical medicine, histopathology refers to the examination of a biopsy or surgical specimen by a pathologist, after the specimen has been processed and histological sections have been placed onto glass slides. In contrast, cytopathology examines free cells or tissue micro-fragments.

A microtome is a cutting tool used to produce extremely thin slices of material known as sections, with the process being termed microsectioning. Important in science, microtomes are used in microscopy for the preparation of samples for observation under transmitted light or electron radiation.

<span class="mw-page-title-main">H&E stain</span> Histological stain method

Hematoxylin and eosin stain is one of the principal tissue stains used in histology. It is the most widely used stain in medical diagnosis and is often the gold standard. For example, when a pathologist looks at a biopsy of a suspected cancer, the histological section is likely to be stained with H&E.

Articles related specifically to biomedical engineering include:

<span class="mw-page-title-main">Laser capture microdissection</span>

Laser capture microdissection (LCM), also called microdissection, laser microdissection (LMD), or laser-assisted microdissection, is a method for isolating specific cells of interest from microscopic regions of tissue/cells/organisms.

<span class="mw-page-title-main">Fixation (histology)</span> Preservation of biological tissue

In the fields of histology, pathology, and cell biology, fixation is the preservation of biological tissues from decay due to autolysis or putrefaction. It terminates any ongoing biochemical reactions and may also increase the treated tissues' mechanical strength or stability. Tissue fixation is a critical step in the preparation of histological sections, its broad objective being to preserve cells and tissue components and to do this in such a way as to allow for the preparation of thin, stained sections. This allows the investigation of the tissues' structure, which is determined by the shapes and sizes of such macromolecules as proteins and nucleic acids.

<span class="mw-page-title-main">Virtual microscopy</span>

Virtual microscopy is a method of posting microscope images on, and transmitting them over, computer networks. This allows independent viewing of images by large numbers of people in diverse locations. It involves a synthesis of microscopy technologies and digital technologies. The use of virtual microscopes can transform traditional teaching methods by removing the reliance on physical space, equipment, and specimens to a model that is solely dependent upon computer-internet access. This increases the convenience of accessing the slide sets and making the slides available to a broader audience. Digitized slides can have a high resolution and are resistant to being damaged or broken over time.

<span class="mw-page-title-main">Digital pathology</span>

Digital pathology is a sub-field of pathology that focuses on managing and analyzing information generated from digitized specimen slides. It utilizes computer-based technology and virtual microscopy to view, manage, share, and analyze digital slides on computer monitors. This field has applications in diagnostic medicine and aims to achieve more efficient and cost-effective diagnoses, prognoses, and disease predictions through advancements in machine learning and artificial intelligence in healthcare.

<span class="mw-page-title-main">Automated tissue image analysis</span>

Automated tissue image analysis or histopathology image analysis (HIMA) is a process by which computer-controlled automatic test equipment is used to evaluate tissue samples, using computations to derive quantitative measurements from an image to avoid subjective errors.

Bioimage informatics is a subfield of bioinformatics and computational biology. It focuses on the use of computational techniques to analyze bioimages, especially cellular and molecular images, at large scale and high throughput. The goal is to obtain useful knowledge out of complicated and heterogeneous image and related metadata.

<span class="mw-page-title-main">MBF Bioscience</span> Biotechnology Company

MBF Bioscience is a biotech company that develops microscopy software and hardware for bioscience research and education. MBF Bioscience’s primary location is Williston, Vermont, United States and has offices that market, sell, and support its line of hardware and software products throughout North America, Europe, and Asia.

<span class="mw-page-title-main">Todd Huffman</span> American inventor and photographer

Todd Huffman is an American technology entrepreneur and prolific photographer. He was a co-founder of the biomedical imaging company 3Scan, a member of the disaster aid group Synergy Strike Force, a researcher for DARPA, and a co-founder of the unconference BIL Conference.

Microscopy with UV Surface Excitation (MUSE) is a novel microscopy method that utilizes the shallow penetration of UV photons excitation. Compared to conventional microscopes, which usually require sectioning to exclude blurred signals from outside of the focal plane, MUSE's low penetration depth limits the excitation volume to a thin layer, and removes the tissue sectioning requirement. The entire signal collected is the desired light, and all photons collected contribute to the image formation.

Microtechnique is an aggregate of methods used to prepare micro-objects for studying. It is currently being employed in many fields in life science. Two well-known branches of microtechnique are botanical (plant) microtechnique and zoological (animal) microtechnique.

Tissue image cytometry or tissue cytometry is a method of digital histopathology and combines classical digital pathology and computational pathology into one integrated approach with solutions for all kinds of diseases, tissue and cell types as well as molecular markers and corresponding staining methods to visualize these markers. Tissue cytometry uses virtual slides as they can be generated by multiple, commercially available slide scanners, as well as dedicated image analysis software – preferentially including machine and deep learning algorithms. Tissue cytometry enables cellular analysis within thick tissues, retaining morphological and contextual information, including spatial information on defined cellular subpopulations.

<span class="mw-page-title-main">Megan Klimen</span> American businesswoman

Megan Klimen is an American entrepreneur, biotechnology executive, and advocate for decentralized scientific data storage. She is best known as one of the co-founders and chief operating officer of 3Scan and currently serves as the Founding Director of the Filecoin Foundation. Megan is a founding member of Women in Hardware, a member of the disaster aid group Synergy Strike Force and a co-founder of the unconference BIL Conference. Megan was a speaker at the World Economic Forum in 2022 and 2024.

References

  1. "Transcriptic and 3Scan form Strateos 3d Medical Imaging Company". 3d Printing Industry. 11 June 2019. Retrieved 4 November 2019.
  2. "Strateos combines Transcriptic and 3Scan". Global News Wire. 3 June 2019. Retrieved 4 November 2019.
  3. 1 2 Yoonsuck, Choe (2011). "Knife-Edge Scanning Microscope Brain Atlas: A Web-Based, Light-Weight 3D Mouse Brain Atlas". Frontiers in Neuroinformatics. 5. doi: 10.3389/conf.fninf.2011.08.00036 .
  4. Wolfe, Josh. "Digital Imaging On The Cutting Edge Of Tissue Analysis". Forbes. Retrieved 25 August 2017.
  5. 1 2 "3Scan raises $14M Series B to build out digital pathology tech | FierceBiotech". www.fiercebiotech.com. Retrieved 2 October 2017.
  6. "Big data in pathology: 3Scan's 3D tissue imaging platform offers reams of data on scale of gene sequencing". MedCity News. 3 February 2015. Retrieved 25 August 2017.
  7. "Tissue Analyzer 3Scan Builds Out Machine Learning With $14M Series B | Xconomy". Xconomy. 11 July 2016. Retrieved 25 August 2017.
  8. "Transwestern Startup Stories: Todd Huffman – 3Scan - The Registry". The Registry. 2017-09-25. Retrieved 2018-03-28.
  9. "Faster, better, stronger: the power of automated 3D histopathology - Teledyne DALSA". Teledyne DALSA. 25 May 2017. Retrieved 2 October 2017.
  10. Howard, Caroline. "Cody Daniel, 28 - pg.4". Forbes. Retrieved 2018-03-28.
  11. "Big data in pathology: 3Scan's 3D tissue imaging platform offers reams of data on scale of gene sequencing". MedCity News. 3 February 2015. Retrieved 2 October 2017.
  12. Berman, Alison E. (11 October 2016). "Robotic Tissue-Slicing Microscopes and DIY Crowd Science to Accelerate Research". Singularity Hub. Retrieved 25 August 2017.
  13. "3Scan raises $14M Series B to build out digital pathology tech | FierceBiotech". www.fiercebiotech.com. Retrieved 25 August 2017.
  14. "With a Knife as a Microscope, 3Scan Maps in 3D | Xconomy". Xconomy. 4 February 2015. Retrieved 25 August 2017.
  15. Kolodny, Lora. "3Scan raises $14 million for a robotic microscope that could accelerate drug discovery | TechCrunch" . Retrieved 25 August 2017.
  16. "A 'scientific deli slicer' gives doctors an up-close look at tumors". STAT. 12 July 2016. Retrieved 25 August 2017.
  17. "Systems Imagination, 3Scan to Offer 3D Pathology Imaging Services". GenomeWeb. Retrieved 25 August 2017.